Microbial Stress Biology offers a comprehensive understanding of the adaptation strategies of microbes at the biochemical and molecular level in response to stressful conditions, while also detailing the molecular mechanisms that enable microbial organisms to survive and persist under these adverse circumstances. The book discusses a wide array of topics related to microbial adaptation, covering fundamental biological responses to stress, microbial adaptations at cellular, genomic, and proteomic levels, as well as specific adaptations and regulations to various environmental stress factors such as pH fluctuations, chemicals, and extreme thermal conditions.
Sections also highlight the application of omics technology and predictive modeling in understanding microbial stress biology for various fields, including biotechnology, medicine, bioremediation, and industrial processes. This book is an informative resource for those in microbiology, molecular biology, biotechnology, and other related fields who are searching for a better understanding of how microbes are able to sense and respond to distinct stressors at both molecular and cellular levels.
1. Introduction - p. xxiii 2. Chapter 1 Fundamental and biological response to stress - p. 1 3. Chapter 2 Microbial adaptation to pressure: At cellular, genomic, and proteomic levels - p. 25 4. Chapter 3 Microbial adaptation to oxygen and an oxygenated environment and molecular adaptations and regulations - p. 41 5. Chapter 4 Microbial adaptation under pH fluctuation: Response and molecular strategies - p. 61 6. Chapter 5 Adaptations and acclimatization of microbial communities under osmotic stress: Response and molecular strategies - p. 75 7. Chapter 6 Nutrition limitations and adaptations: Changes at the cellular, genomic, and proteomic levels - p. 93 8. Chapter 7 Host-associated stress and molecular regulations - p. 111 9. Chapter 8 Biotechnological applications: An understanding of molecular adaptation behavior - p. 133 10. Chapter 9 Heat shock proteins and microbial adaptations - p. 147 11. Chapter 10 Indigenous and autochthonous microbial-mediated response (competition and cooperation) and strategies at cellular, genomic, and proteomic levels - p. 167 12. Chapter 11 Microbes under integrated stress and their strategies to address different stressors - p. 185 13. Chapter 12 Microbial stress in extreme environments and their molecular adaptations and regulations - p. 211 14. Chapter 13 Microbial response under radiation stress: Molecular adaptations and regulations - p. 225 15. Chapter 14 Cellular, proteomic, and genomic responses of microbial communities under pesticide stress and carbon metabolism - p. 239 16. Chapter 15 Microbial response and strategies under cold conditions (during preservation to extremely low temperature) - p. 251 17. Chapter 16 Microbial molecular behavior from cardinal to extreme thermal conditions - p. 269 18. Chapter 17 Application of omics technology and predictive modeling for the understanding of microbial molecular stress biology - p. 293 19. Chapter 18 Application of microbial stress biology in biotechnology, medicine, bioremediation strategies, and industrial processes - p. 325 20. Chapter 19 Characterization of novel proteins and enzymes in stress environments from microbial communities - p. 341 21. Chapter 20 Microbial molecular responses to drought: Mechanisms, applications, and future outlook - p. 361 22. Index - p. 387
Microbial Stress Biology offers a comprehensive understanding of the adaptation strategies of microbes at the biochemical and molecular level in response to stressful conditions, while also detailing the molecular mechanisms that enable microbial organisms to survive and persist under these adverse circumstances. The book discusses a wide array of topics related to microbial adaptation, covering fundamental biological responses to stress, microbial adaptations at cellular, genomic, and proteomic levels, as well as specific adaptations and regulations to various environmental stress factors such as pH fluctuations, chemicals, and extreme thermal conditions.
Sections also highlight the application of omics technology and predictive modeling in understanding microbial stress biology for various fields, including biotechnology, medicine, bioremediation, and industrial processes. This book is an informative resource for those in microbiology, molecular biology, biotechnology, and other related fields who are searching for a better understanding of how microbes are able to sense and respond to distinct stressors at both molecular and cellular levels.
1. Introduction - p. xxiii 2. Chapter 1 Fundamental and biological response to stress - p. 1 3. Chapter 2 Microbial adaptation to pressure: At cellular, genomic, and proteomic levels - p. 25 4. Chapter 3 Microbial adaptation to oxygen and an oxygenated environment and molecular adaptations and regulations - p. 41 5. Chapter 4 Microbial adaptation under pH fluctuation: Response and molecular strategies - p. 61 6. Chapter 5 Adaptations and acclimatization of microbial communities under osmotic stress: Response and molecular strategies - p. 75 7. Chapter 6 Nutrition limitations and adaptations: Changes at the cellular, genomic, and proteomic levels - p. 93 8. Chapter 7 Host-associated stress and molecular regulations - p. 111 9. Chapter 8 Biotechnological applications: An understanding of molecular adaptation behavior - p. 133 10. Chapter 9 Heat shock proteins and microbial adaptations - p. 147 11. Chapter 10 Indigenous and autochthonous microbial-mediated response (competition and cooperation) and strategies at cellular, genomic, and proteomic levels - p. 167 12. Chapter 11 Microbes under integrated stress and their strategies to address different stressors - p. 185 13. Chapter 12 Microbial stress in extreme environments and their molecular adaptations and regulations - p. 211 14. Chapter 13 Microbial response under radiation stress: Molecular adaptations and regulations - p. 225 15. Chapter 14 Cellular, proteomic, and genomic responses of microbial communities under pesticide stress and carbon metabolism - p. 239 16. Chapter 15 Microbial response and strategies under cold conditions (during preservation to extremely low temperature) - p. 251 17. Chapter 16 Microbial molecular behavior from cardinal to extreme thermal conditions - p. 269 18. Chapter 17 Application of omics technology and predictive modeling for the understanding of microbial molecular stress biology - p. 293 19. Chapter 18 Application of microbial stress biology in biotechnology, medicine, bioremediation strategies, and industrial processes - p. 325 20. Chapter 19 Characterization of novel proteins and enzymes in stress environments from microbial communities - p. 341 21. Chapter 20 Microbial molecular responses to drought: Mechanisms, applications, and future outlook - p. 361 22. Index - p. 387
